scholarly journals Iron poisoning in lethal dose: Case report

2012 ◽  
Vol 23 (2) ◽  
pp. 99-102
Author(s):  
Ibrahim Cansaran Tanidir ◽  
Ibrahim Silfeler ◽  
Yesim Acar ◽  
Alper Kacar ◽  
Fugen Pekun
Blood ◽  
1955 ◽  
Vol 10 (1) ◽  
pp. 35-45 ◽  
Author(s):  
KURT R. REISSMANN ◽  
THOMAS J. COLEMAN ◽  
BENEDICT S. BUDAI ◽  
LAUREN R. MORIARTY

Abstract To simulate the fatal iron poisoning reported in children and to study the mechanism of the iron toxicity, dissociable iron salts were given by stomach or duodenal tube or by enema to rabbits and dogs. In either route of administration, the lethal dose was found to be approximately 150 to 200 mg. Fe per kilogram body weight. Dissociable iron salts in toxic doses were rapidly absorbed through the histologically intact mucosa both from the small and from the large bowel. In the majority of the animals, no histological changes were seen in the intestinal mucosa, but intestinal bleeding occurred in some instances by diapedesis from the greatly congested capillaries. Serum iron levels of several milligrams per cent developed within sixty minutes after ingestion of the iron salts, and with the exception of 300 to 400 micrograms per cent, the serum iron was non-beta1-globulin bound and in ferric state. Although only a fraction of the total dose administered was found to be absorbed within nine hours, the observed serum iron rise was roughly proportional to the dose ingested, and the survival time varied inversely with the dose. Acute intestinal iron poisoning must therefore be considered as a true absorptive intoxication. Any possibly occurring mucosal damage in stomach and intestines is of secondary importance.


2020 ◽  
Vol 26 (2) ◽  
Author(s):  
Diana Ávila Reyes ◽  
Juan Camilo Galvis Mejía ◽  
Jose Fernando Gómez González ◽  
Mateo Aguirre Flórez

  Introduction: Sodium fluoroacetate, known as compound 1080, was discovered in Germany during the Second World War. It is usually used as a rodenticide, it is an odorless and tasteless substance, with a lethal dose in humans of 2 mg / kg that is why it was withdrawn from the market in some countries, including Colombia; however, it is obtained illegally. This substance has biochemical and physiological effects at the cellular level that alter the transport of citrate at the mitochondrial level, generating accumulation of lactic acid and alteration of the glucose use. The clinical manifestations are nonspecific since there is no any cardinal symptom. Therefore, its diagnosis is made due to high clinical suspicion associated with establishment of exposure to the compound in view of the difficulty to obtain paraclinical confirmation in a timely manner. Methods: We present a case report of intentional ingestion of sodium fluoroacetate in an adolescent that is associated with an infection added to the bloodstream by methicillin- sensitive Staphylococcus aureus (MSSA). The patient developed multiple complications that lead to support in the Intensive Care Unit (ICU) with a satisfactory outcome. In view of the lack of a specific antidote, she was treated with ethanol in order to increase the level of acetate; thus, offering an alternative substrate to the Krebs cycle. It is suggested that the ethanol offers benefits in the acute treatment of these patients. Results: The patient with sodium fluoroacetate poisoning and kidney failure received renal replacement therapy with a favorable evolution and survival at discharge from the intensive care unit of a third-level hospital in the city of Pereira, Risaralda, Colombia. Conclusions: Sodium fluoroacetate poisoning is relatively rare and can cause acute kidney injury and multi-organ failure with a high rate of complications and death. A case of self-inflicted poisoning that received a timely manner continuous renal replacement therapy with a favorable outcome in terms of ICU survival was presented.


2018 ◽  
Vol 12 (1) ◽  
Author(s):  
Ichiro Hirayama ◽  
Takahiro Hiruma ◽  
Yoshihiro Ueda ◽  
Kent Doi ◽  
Naoto Morimura

2010 ◽  
Vol 29 (11) ◽  
pp. 961-963 ◽  
Author(s):  
Yan-Chiao Mao ◽  
Dong-Zong Hung ◽  
Chen-Chang Yang ◽  
Jiaan-Der Wang

Intoxication by orphenadrine is uncommon. The clinical features consist of both central and peripheral anticholinergic effects. Ingestion of 2 to 3 g orphenadrine in an adult has been associated with fatality. A 46-year-old female was brought to our emergency department 1.5 hours after ingesting 40 tablets of 100 mg orphenadrine. She became stuporous 3 hours post-ingestion and developed generalized convulsions 1 hour later. Fifty-five hours post-ingestion, she had recovered and was found to have anterior shoulder dislocation. In addition, severe rhabdomyolysis and persistent nausea were observed. All of the above-noted toxic effects resolved with conservative treatment. Although orphenadrine intoxication can cause convulsions and hemodynamic instability, there is no available antidote and treatment remains supportive.


Author(s):  
AASHIQ AHAMED SHUKKOOR ◽  
NIMMY ELIZABETH GEORGE ◽  
SARAVANAN THANGAVELU

Rat killer, in the form of a paste, is a commonly used rodenticide in India. It contains 3% yellow phosphorus, which is a local and a systemic toxin that damages all tissues it contacts. The lethal dose of yellow phosphorus is about 1 mg/kg of body weight. We present a case report of a 30-year-old female patient with an alleged history of intake of 30 g rat killer paste mixed with one glass juice with suicidal intent. She presented with clinical features of acute liver failure (ALF) and was treated with N-acetylcysteine (NAC) infusion with other supportive therapy and recovered completely within 13 days. Poisoning with yellow phosphorus needs to be studied in the aspect of treatment, due to the lack of any specific antidote. The patient factors that help in the recovery also need to be investigated. Although highly lethal, the recovery of ALF due to yellow phosphorus-containing rodenticide is possible. Early intravenous administration of NAC, which acts as glutathione substitute, anti-inflammatory agent, and anti-oxidant could contribute to complete resolution of ALF in yellow phosphorus poisoning.


PEDIATRICS ◽  
1998 ◽  
Vol 102 (Supplement_1) ◽  
pp. 241-243
Author(s):  
Sanford N. Cohen

Objective. Children with iron poisoning, and mongrel dogs studied under laboratory conditions, were evaluated to explore the safety and effectiveness of the use of desferrioxamine in acute iron intoxication as reported in the 1965 paper. Methodology. Twelve children admitted to a pediatric unit after iron ingestion were subjected to gastric lavage (10) and treatment either with intravenous desferrioxamine (9) or with a combination of intravenous and enteral (gavage) desferrioxamine (3). Serum iron levels before and after therapy, urinary excretion of iron, and symptoms before and after therapy were all measured. Mongrel dogs (23) were fasted overnight and then given toxic doses of ferrous sulfate intraduodenally under general anesthesia. Controls (14) were observed for serum iron, arterial pH, and hematocrit, and mean arterial blood pressures. The 9 dogs treated were given desferrioxamine both intravenously and intraduodenally, whereas the controls were observed without treatment. Four additional dogs were treated with a lethal dose of iron that was first complexed with desferrioxamine and then administered intraduodenally. Another 2 dogs received a slow intravenous infusion of either ferrous or ferric iron, and 2 others were given the same amount of iron, but as a complex with desferrioxamine. Other studies were performed on dogs to evaluate the effect of desferrioxamine on arterial blood pressure and the toxicity of the iron-desferrioxamine complex. Results. Rapid intravenous infusion produced hypotension in two children, one of whom had a seizure. Significant amounts of iron were discovered in the urine of all patients. None had progression of symptoms while in the hospital. One child who was in coma when admitted was noted to be developmentally retarded 5 months later. All 14 control dogs died by 10 hours after duodenal instillation of iron. Three of the dogs treated survived, but these were the three with the lowest pretreatment iron levels. The enteral administration of lethal doses of iron previously complexed with desferrioxamine resulted in the excretion of large amounts of iron in the urine in 4 dogs and in one of three children treated with moderate amounts of iron complexed with desferrioxamine. The children were not affected adversely by this treatment, but the dogs experienced a marked drop in blood pressure and died within a few hours. Conclusions. The use of desferrioxamine results in the rapid excretion of more iron in the urine than would occur without such treatment. The drug produces hypotension when administered rapidly by parenteral infusion. The enteral administration of the drug to poisoned dogs or children does not prevent the absorption of iron; indeed the complex is freely absorbable. The desferrioxamine–iron complex is toxic to the kidneys.COMMENTARY


2018 ◽  
Vol 2 (1) ◽  
pp. 6-9 ◽  
Author(s):  
Shelton W. Wright ◽  
Matthew Valento ◽  
Suzan S. Mazor ◽  
Betty C. Chen
Keyword(s):  

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